In this categoryLocal AI · 70
- Speridlabs Idol: Turn One Photo into a 3D Gaussian Splat, and How to Run It
- LFM3-Omni-2B: Liquid AI's 2.2B Any-to-Any Model, and How to Run It Locally
- SenseNova-Loop-9B-Preview: A Looped Multimodal Model for Long-Context Work, and How to Run It
- How to Run WeVisOne-VL-4B Locally: Tencent's All-in-One Vision Model
- How to Run Mistral Large 4 (1T-A52B) Locally: The Hardware It Actually Needs
- How to Run Hy-SimulMT-30B-A3B-FP8 Locally: Tencent's Real-Time Speech Translator
- How to Run Chroma1-HD Locally: An Open Base Model for Text-to-Image
- How to Run Nemotron 3.5 Parse Locally: NVIDIA's 630M Document Parsing Model
- How to Run Recursive Flint Locally: a 39.8B Coding Model You Can Actually Fit on a Mac
- How to Run Phonon-40M-en Locally: Gradium's 40M-Parameter Text-to-Speech Model
- How to Run Timestral-209M Locally: Mistral's 209M-Parameter Time Series Forecasting Model
- How to Run Indra OCR Locally: a 1M-Parameter CPU Model That Hits 49 Pages a Second
- How to Run AuroraIMG-6M Locally: AuroraAI-Research's 6.82M-Parameter Text-to-Image Model
- How to Run Maya-1 Locally: a 3.3B-Parameter Text-to-Speech Model with Voice Design
- How to Run Sopro V2 Turbo Locally: a 120M-Parameter Voice Cloning TTS Model
- How to Run Kova TTS 1 Locally: a 1.25B-Parameter Voice Cloning Model for Narration
- How to Run Whistle Locally: Cactus's 16.9MB On-Device Speech Recognition Model
- How to Run Antalia-2 Mini Locally: a 7.6M-Parameter Turkish TTS Model
- How to Run Supra2-IMG Locally: SupraLabs' 104M-Parameter Text-to-Image Model
- How to Run VisionHOPE Locally: PSRben's Self-Modifying Vision Backbone
- Fish Audio S1-Mini: What It Is and How to Actually Try It
- How to Run SupraTTS-0.1-Beta Locally: A Tiny Glow-TTS Voice Model
- How to Run Nemotron 3 Diarization Locally: Streaming Speaker Tagging in 99M Parameters
- How to Run Freya-TTS Locally: A 183M-Parameter Turkish Text-to-Speech Model
- How to Run Audio8 ASR Infinite Locally: Streaming Speech Recognition That Never Stops
- How to Run TeleOCR Locally: One Model for Scanned and Photographed Documents
- How to Run Xing4.0-29B-A4B Locally: A 256K-Context MoE Model for Agent Tasks
- How to Run IndicF5 Locally: Voice Cloning for 11 Indian Languages
- How to Run Fish Audio S2 Pro Locally: Multilingual TTS with Inline Emotion Control
- How to Run ZDTaichu5.0-9B Locally: A 9.79B Vision-Language Model Built for Spatial Reasoning
- How to Run Qwen3-TTS-12Hz-1.7B-VoiceDesign Locally: Voice Design From a Text Description
- How to Run YuE2-3B Locally: Open Source Music Generation That Beats Suno v5 on Benchmarks
- MiniCPM5-2B: Install and Run OpenBMB's 2B Model That Outscores 4B Rivals
- BERT Base Uncased: Specs, How to Run It, and Why It's Still Trending in 2026
- How to Run tencent/AuK Locally: Zero-Shot TTS, Voice Cloning and Speech Editing
- Stable Diffusion 3.5 Medium: What's Different From SDXL and Flux
- Qwen-Image-2512: The Text-to-Image Model That Renders Real Text
- How to Run Irodori-TTS Anime Locally: Japanese Voice Cloning and Voice Design
- How to Run Breeze TTS 2 Locally: Voice Clone, Voice Design and Voice Direction
- How to Run Kokoro-82M Locally: the Fastest Open-Weight TTS Model
- How to Install Ollama on macOSStart
- How to Install Ollama on Windows
- How to Run Llama 3 Locally with Ollama
- How to Pick the Right Local AI Model for Your Hardware
- Best GGUF Models to Run by VRAM Tier (8GB, 12GB, 16GB, 24GB, 48GB)
- Run LLMs in Your Browser With WebGPU: No Install, No Server (WebLLM)
- How to Use Ollama as a Drop-In OpenAI API
- GGUF vs MLX vs NVFP4: Local AI Quantization Formats Explained
- Best GPU for Running AI Locally in 2026Start
- How Much RAM Do You Need for Local AI?
- Mac vs PC for Local AI: Which Should You Choose?
- How to Build a Local AI Workstation on Any Budget
- How to Set Up Local AI on 8GB of VRAM
- How to Set Up Local AI on 12GB of VRAM
- Best Local LLM for 16 GB VRAM: Setup, Quantization and Real Speed
- How to Set Up Local AI on 24GB of VRAM
- Best Local LLM on Mac M4 16 GB: Setup, MLX vs GGUF and Real Speed
- Best Local LLM on Mac M4 Pro 48GB: Setup, Quantization and Real Speed
Mac vs PC for Local AI: Which Should You Choose?
Apple Silicon unified memory and PC discrete GPUs take completely different approaches to local AI. Here is what each does better and how to pick based on your workload.
The Mac vs PC debate for local AI is not about brand loyalty. It comes down to a fundamental architecture difference: Apple Silicon merges CPU and GPU memory into one pool, while a PC uses separate VRAM on a discrete GPU. Each approach has real advantages and real limits. This guide walks through both so you can match the right machine to the work you actually do.
The Apple Silicon unified memory advantage
On a standard PC, your GPU has its own VRAM (say 16 GB on an RTX 4080 Super) and your CPU has system RAM (say 64 GB DDR5). These are separate pools. A 34B model that needs 20 GB will not fit in 16 GB of VRAM, so it either falls back to slow CPU inference or cannot run at all.
Apple Silicon uses a unified memory architecture where the CPU, GPU, and Neural Engine all share one memory pool. A Mac mini M4 Pro with 48 GB has 48 GB available to the GPU for AI work. That is a larger effective VRAM capacity than any discrete GPU under $2,000. The memory bandwidth on the M4 Pro (273 GB/s) is also faster than DDR5 system RAM, so the GPU does not starve for data when running inference.
Mac mini M4 — the budget powerhouse
The Mac mini M4 starts at $799 with 16 GB of unified memory and a 512 GB SSD — Apple raised the base price and retired the old $599 / 256 GB tier in 2026. That 16 GB runs 7B and 13B models comfortably. For local AI on a tight budget, the base M4 Mac mini still beats almost every Windows laptop option, with far lower power draw (18-30W at idle vs 200-400W for a discrete GPU rig).
| Mac model | Memory | Price | Max model size |
|---|---|---|---|
| Mac mini M4 | 16 GB unified | $799 | 13B (tight) |
| Mac mini M4 Pro | 24 GB unified | $1,599 | 20B-30B |
| Mac mini M4 Pro | 48 GB unified | $2,099 | 34B comfortably |
| Mac Studio M4 Max | 64 GB unified | $2,899 | 70B quantized |
| Mac Studio M4 Max | 128 GB unified | $3,699 | 70B full precision |
Mac wins for inference and privacy
- Larger effective model capacity per dollar than any discrete GPU under $2,000
- Silent, fanless operation on Mac mini (M4 Pro variant has a fan but runs quietly at inference loads)
- Low power — a Mac mini M4 Pro running Llama 3.1 70B Q4 draws roughly 40-60W vs 300-450W for a PC with an RTX 4090
- All inference stays on-device with no telemetry by default — strong privacy story for sensitive data
- Ollama, LM Studio, and Jan all have excellent macOS support and auto-detect Apple Silicon
- mlx-lm from Apple is a native framework that runs models faster than llama.cpp on M-series chips
M4 Max and M4 Ultra for serious inference
The Mac Studio M4 Max with 128 GB of unified memory is the only consumer machine that can run a full 70B parameter model without any quantization. Tokens per second are lower than a dual-RTX 4090 setup, but the model quality is higher because quantization is not needed. The M4 Ultra (available in the Mac Pro, starting at $9,999) doubles that to 256 GB and is the closest thing to a personal cloud GPU node you can own. For research teams or developers who test full-precision models, this setup is hard to match.
PC wins for fine-tuning and cutting-edge tooling
CUDA is still the de facto standard for AI research and fine-tuning. Nearly every training framework — PyTorch, Hugging Face Transformers, Unsloth, Axolotl — is built CUDA-first and tested on Nvidia hardware. QLoRA fine-tuning a 7B model on a single RTX 4090 takes a few hours; the same job on an M4 Pro Mac takes longer and requires workarounds for some tooling.
- Fine-tuning (LoRA, QLoRA, full fine-tune): PC with RTX 4080 Super or 4090
- Running a persistent local model server for a team: PC tower with two RTX 4090s
- Stable Diffusion training (DreamBooth, Kohya): PC only — many training tools do not support MPS (Apple GPU) at all
- Cutting-edge research code from Hugging Face or arXiv: PC — most repos are tested on CUDA before anything else
The practical split
Most people running local AI for personal productivity — chat, coding assistant, document summarization, image generation — will be happier with a Mac. The setup is simpler, the power bill is lower, the machine is quieter, and the effective memory pool is larger per dollar. People who want to fine-tune models, run training jobs, or use bleeding-edge research code will be happier with a PC running Nvidia hardware.
Local models run better with more VRAM. CompareRTX GPUs on Amazonbefore you upgrade.(affiliate link. We may earn a commission at no extra cost. Disclosure)
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